\(\frac{31}{8}\)
\(\frac{17}{6}\)
\(\frac{19}{6}\)
\(\frac{27}{8}\)
A = {(x, y) : x2 ≤ y ≤ min {x + 2, 4 – 3x}
So, the area of the required region
A=\(\int_{-1}^{\frac{1}{2}}\)(x+2−x2)dx+\(\int_{1}^{\frac{1}{2}}\)(4−3x−x2)dx
=[\(\frac{x^2}{2}+2x-\frac{x^3}{3}\)]\(^{\frac{1}{2}}\)-1+[4x−\(\frac{3x^2}{2}\)−\(\frac{x^3}{3}\)]\(^{\frac{1}{2}}\)1
=(\(\frac{1}{8}\)+1−\(\frac{1}{24}\))−(\(\frac{1}{2}\)−2+\(\frac{1}{3}\))+(4−\(\frac{3}{2}\)−\(\frac{1}{3}\))−(2−\(\frac{3}{8}\)−\(\frac{1}{24}\))=\(\frac{17}{6}\)
The eccentricity of the curve represented by $ x = 3 (\cos t + \sin t) $, $ y = 4 (\cos t - \sin t) $ is:
Let \( A = \{-3, -2, -1, 0, 1, 2, 3\} \). A relation \( R \) is defined such that \( xRy \) if \( y = \max(x, 1) \). The number of elements required to make it reflexive is \( l \), the number of elements required to make it symmetric is \( m \), and the number of elements in the relation \( R \) is \( n \). Then the value of \( l + m + n \) is equal to:
The theory that is part of mathematics is the approximation theory. An approximation is employed when it becomes difficult to seek out the exact value of any number. It is also essential to round off the errors resulting in approximation.
In general, the wavy equal “≈” sign is used to represent the approximate values that stand for “almost equal to”.
For Example ⇢ π ≈ 3.14
Consider y = f(x) = any function of x.
Let,
Δx = the small change in x
Δy = the corresponding change in y
Here are some of the essential points that are required to be remembered: